// raylib-zig (c) Nikolas Wipper 2023

const rl = @This();
const std = @import("std");

pub const cdef = @import("raylib-ext.zig");

pub const gl = @import("rlgl.zig");
pub const math = @import("raymath.zig");

test {
    std.testing.refAllDeclsRecursive(@This());
}

pub const RaylibError = error{
    LoadFileData,
    CompressData,
    DecompressData,
    EncodeDataBase64,
    DecodeDataBase64,
    ExportImageToMemory,
    LoadImageColors,
    LoadImagePalette,
    LoadFont,
    LoadFontData,
    LoadCodepoints,
    TextSplit,
    LoadMaterial,
    LoadMaterials,
    LoadModelAnimations,
    LoadShader,
    LoadImage,
    LoadModel,
    LoadTexture,
    LoadRenderTexture,
    LoadWave,
    LoadSound,
    LoadMusic,
    LoadAudioStream,
    GenImageFontAtlas,
};

pub const Vector2 = extern struct {
    x: f32,
    y: f32,

    pub fn init(x: f32, y: f32) Vector2 {
        return Vector2{ .x = x, .y = y };
    }

    /// Vector with components value 0.0
    pub fn zero() Vector2 {
        return math.vector2Zero();
    }

    /// Vector with components value 1.0
    pub fn one() Vector2 {
        return math.vector2One();
    }

    /// Add two vectors (v1 + v2)
    pub fn add(self: Vector2, v: Vector2) Vector2 {
        return math.vector2Add(self, v);
    }

    /// Add vector and float value
    pub fn addValue(self: Vector2, v: f32) Vector2 {
        return math.vector2AddValue(self, v);
    }

    /// Subtract two vectors (v1 - v2)
    pub fn subtract(self: Vector2, v: Vector2) Vector2 {
        return math.vector2Subtract(self, v);
    }

    /// Subtract vector by float value
    pub fn subtractValue(self: Vector2, v: f32) Vector2 {
        return math.vector2SubtractValue(self, v);
    }

    /// Calculate vector length
    pub fn length(self: Vector2) f32 {
        return math.vector2Length(self);
    }

    /// Calculate vector square length
    pub fn lengthSqr(self: Vector2) f32 {
        return math.vector2LengthSqr(self);
    }

    /// Calculate two vectors dot product
    pub fn dotProduct(self: Vector2, v: Vector2) f32 {
        return math.vector2DotProduct(self, v);
    }

    /// Calculate distance between two vectors
    pub fn distance(self: Vector2, v: Vector2) f32 {
        return math.vector2Distance(self, v);
    }

    /// Calculate square distance between two vectors
    pub fn distanceSqr(self: Vector2, v: Vector2) f32 {
        return math.vector2DistanceSqr(self, v);
    }

    /// Calculate angle from two vectors
    pub fn angle(self: Vector2, v: Vector2) f32 {
        return math.vector2Angle(self, v);
    }

    /// Calculate angle defined by a two vectors line
    pub fn lineAngle(self: Vector2, end: Vector2) f32 {
        return math.vector2LineAngle(self, end);
    }

    /// Scale vector (multiply by value)
    pub fn scale(self: Vector2, scale_: f32) Vector2 {
        return math.vector2Scale(self, scale_);
    }

    /// Multiply vector by vector
    pub fn multiply(self: Vector2, v2: Vector2) Vector2 {
        return math.vector2Multiply(self, v2);
    }

    /// Negate vector
    pub fn negate(self: Vector2) Vector2 {
        return math.vector2Negate(self);
    }

    /// Divide vector by vector
    pub fn divide(self: Vector2, v2: Vector2) Vector2 {
        return math.vector2Divide(self, v2);
    }

    /// Normalize provided vector
    pub fn normalize(self: Vector2) Vector2 {
        return math.vector2Normalize(self);
    }

    /// Transforms a Vector2 by a given Matrix
    pub fn transform(self: Vector2, mat: Matrix) Vector2 {
        return math.vector2Transform(self, mat);
    }

    /// Calculate linear interpolation between two vectors
    pub fn lerp(self: Vector2, v2: Vector2, amount: f32) Vector2 {
        return math.vector2Lerp(self, v2, amount);
    }

    /// Calculate reflected vector to normal
    pub fn reflect(self: Vector2, normal: Vector2) Vector2 {
        return math.vector2Reflect(self, normal);
    }

    /// Get min value for each pair of components
    pub fn min(self: Vector2, v2: Vector2) Vector2 {
        return math.vector2Min(self, v2);
    }

    /// Get max value for each pair of components
    pub fn max(self: Vector2, v2: Vector2) Vector2 {
        return math.vector2Max(self, v2);
    }

    /// Rotate vector by angle
    pub fn rotate(self: Vector2, angle_: f32) Vector2 {
        return math.vector2Rotate(self, angle_);
    }

    /// Move Vector towards target
    pub fn moveTowards(self: Vector2, target: Vector2, maxDistance: f32) Vector2 {
        return math.vector2MoveTowards(self, target, maxDistance);
    }

    /// Invert the given vector
    pub fn invert(self: Vector2) Vector2 {
        return math.vector2Invert(self);
    }

    /// Clamp the components of the vector between min and max values specified by the given vectors
    pub fn clamp(self: Vector2, min_: Vector2, max_: Vector2) Vector2 {
        return math.vector2Clamp(self, min_, max_);
    }

    /// Clamp the magnitude of the vector between two min and max values
    pub fn clampValue(self: Vector2, min_: f32, max_: f32) Vector2 {
        return math.vector2ClampValue(self, min_, max_);
    }

    /// Check whether two given vectors are almost equal
    pub fn equals(self: Vector2, q: Vector2) i32 {
        return math.vector2Equals(self, q);
    }

    /// Compute the direction of a refracted ray
    /// v: normalized direction of the incoming ray
    /// n: normalized normal vector of the interface of two optical media
    /// r: ratio of the refractive index of the medium from where the ray comes
    ///    to the refractive index of the medium on the other side of the surface
    pub fn refract(self: Vector2, n: Vector2, r: f32) Vector2 {
        return math.vector2Refract(self, n, r);
    }
};

pub const Vector3 = extern struct {
    x: f32,
    y: f32,
    z: f32,

    pub fn init(x: f32, y: f32, z: f32) Vector3 {
        return Vector3{ .x = x, .y = y, .z = z };
    }

    // Vector with components value 0.0
    pub fn zero() Vector3 {
        return math.vector3Zero();
    }

    /// Vector with components value 1.0
    pub fn one() Vector3 {
        return math.vector3One();
    }

    /// Add two vectors
    pub fn add(self: Vector3, v: Vector3) Vector3 {
        return math.vector3Add(self, v);
    }

    /// Add vector and float value
    pub fn addValue(self: Vector3, add_: f32) Vector3 {
        return math.vector3AddValue(self, add_);
    }

    /// Subtract two vectors
    pub fn subtract(self: Vector3, v: Vector3) Vector3 {
        return math.vector3Subtract(self, v);
    }

    /// Subtract vector by float value
    pub fn subtractValue(self: Vector3, sub: f32) Vector3 {
        return math.vector3SubtractValue(self, sub);
    }

    /// Multiply vector by scalar
    pub fn scale(self: Vector3, scalar: f32) Vector3 {
        return math.vector3Scale(self, scalar);
    }

    /// Multiply vector by vector
    pub fn multiply(self: Vector3, v: Vector3) Vector3 {
        return math.vector3Multiply(self, v);
    }

    /// Calculate two vectors cross product
    pub fn crossProduct(self: Vector3, v: Vector3) Vector3 {
        return math.vector3CrossProduct(self, v);
    }

    /// Calculate one vector perpendicular vector
    pub fn perpendicular(self: Vector3) Vector3 {
        return math.vector3Perpendicular(self);
    }

    /// Calculate vector length
    pub fn length(self: Vector3) f32 {
        return math.vector3Length(self);
    }

    /// Calculate vector square length
    pub fn lengthSqr(self: Vector3) f32 {
        return math.vector3LengthSqr(self);
    }

    /// Calculate two vectors dot product
    pub fn dotProduct(self: Vector3, v: Vector3) f32 {
        return math.vector3DotProduct(self, v);
    }

    /// Calculate distance between two vectors
    pub fn distance(self: Vector3, v: Vector3) f32 {
        return math.vector3Distance(self, v);
    }

    /// Calculate square distance between two vectors
    pub fn distanceSqr(self: Vector3, v: Vector3) f32 {
        return math.vector3DistanceSqr(self, v);
    }

    /// Calculate angle between two vectors
    pub fn angle(self: Vector3, v: Vector3) f32 {
        return math.vector3Angle(self, v);
    }

    /// Negate vector (invert direction)
    pub fn negate(self: Vector3) Vector3 {
        return math.vector3Negate(self);
    }

    /// Divide vector by vector
    pub fn divide(self: Vector3, v: Vector3) Vector3 {
        return math.vector3Divide(self, v);
    }

    /// Normalize provided vector
    pub fn normalize(self: Vector3) Vector3 {
        return math.vector3Normalize(self);
    }

    /// Calculate the projection of the vector v1 on to v2
    pub fn project(self: Vector3, v: Vector3) Vector3 {
        return math.vector3Project(self, v);
    }

    /// Calculate the rejection of the vector v1 on to v2
    pub fn reject(self: Vector3, v: Vector3) Vector3 {
        return math.vector3Reject(self, v);
    }

    /// Orthonormalize provided vectors Makes vectors normalized and orthogonal
    /// to each other Gram-Schmidt function implementation
    pub fn orthoNormalize(self: *Vector3, v: *Vector3) void {
        math.vector3OrthoNormalize(self, v);
    }

    /// Transforms a Vector3 by a given Matrix
    pub fn transform(self: Vector3, mat: Matrix) Vector3 {
        return math.vector3Transform(self, mat);
    }

    /// Transform a vector by quaternion rotation
    pub fn rotateByQuaternion(self: Vector3, q: Quaternion) Vector3 {
        return math.vector3RotateByQuaternion(self, q);
    }

    /// Rotates a vector around an axis
    pub fn rotateByAxisAngle(self: Vector3, axis: Vector3, angle_: f32) Vector3 {
        return math.vector3RotateByAxisAngle(self, axis, angle_);
    }

    /// Move Vector towards target
    pub fn moveTowards(self: Vector3, target: Vector3, maxDistance: f32) Vector3 {
        return math.vector3MoveTowards(self, target, maxDistance);
    }

    /// Calculate linear interpolation between two vectors
    pub fn lerp(self: Vector3, v2: Vector3, amount: f32) Vector3 {
        return math.vector3Lerp(self, v2, amount);
    }

    /// Calculate cubic hermite interpolation between two vectors and their tangents
    /// as described in the GLTF 2.0 specification
    pub fn cubicHermite(self: Vector3, tangent1: Vector3, v: Vector3, tangent2: Vector3, amount: f32) Vector3 {
        return math.vector3CubicHermite(self, tangent1, v, tangent2, amount);
    }

    /// Calculate reflected vector to normal
    pub fn reflect(self: Vector3, normal: Vector3) Vector3 {
        return math.vector3Reflect(self, normal);
    }

    /// Get min value for each pair of components
    pub fn min(self: Vector3, v: Vector3) Vector3 {
        return math.vector3Min(self, v);
    }

    /// Get max value for each pair of components
    pub fn max(self: Vector3, v: Vector3) Vector3 {
        return math.vector3Max(self, v);
    }

    /// Compute barycenter coordinates (u, v, w) for point p with respect to triangle
    /// (a, b, c) NOTE: Assumes P is on the plane of the triangle
    pub fn barycenter(p: Vector3, a: Vector3, b: Vector3, c: Vector3) Vector3 {
        return math.vector3Barycenter(p, a, b, c);
    }

    /// Projects a Vector3 from screen space into object space
    /// NOTE: We are avoiding calling other raymath functions despite available
    pub fn unproject(source: Vector3, projection: Matrix, view: Matrix) Vector3 {
        return math.vector3Unproject(source, projection, view);
    }

    /// Get Vector3 as float array
    pub fn toFloatV(self: Vector3) math.float3 {
        return math.vector3ToFloatV(self);
    }

    /// Invert the given vector
    pub fn invert(self: Vector3) Vector3 {
        return math.vector3Invert(self);
    }

    /// Clamp the components of the vector between min and max values specified by the given vectors
    pub fn clamp(self: Vector3, min_: Vector3, max_: Vector3) Vector3 {
        return math.vector3Clamp(self, min_, max_);
    }

    /// Clamp the magnitude of the vector between two values
    pub fn clampValue(self: Vector3, min_: f32, max_: f32) Vector3 {
        return math.vector3ClampValue(self, min_, max_);
    }

    /// Check whether two given vectors are almost equal
    pub fn equals(p: Vector3, q: Vector3) i32 {
        return math.vector3Equals(p, q);
    }

    /// Compute the direction of a refracted ray
    /// v: normalized direction of the incoming ray
    /// n: normalized normal vector of the interface of two optical media
    /// r: ratio of the refractive index of the medium from where the ray comes
    ///    to the refractive index of the medium on the other side of the surface
    pub fn refract(self: Vector3, n: Vector3, r: f32) Vector3 {
        return math.vector3Refract(self, n, r);
    }
};

pub const Vector4 = extern struct {
    x: f32,
    y: f32,
    z: f32,
    w: f32,

    pub fn init(x: f32, y: f32, z: f32, w: f32) Vector4 {
        return Vector4{ .x = x, .y = y, .z = z, .w = w };
    }

    /// Vector with components value 0.0
    pub fn zero() Vector4 {
        return math.vector4Zero();
    }

    /// Vector with components value 1.0
    pub fn one() Vector4 {
        return math.vector4One();
    }

    /// Add two vectors
    pub fn add(self: Vector4, v: Vector4) Vector4 {
        return math.vector4Add(self, v);
    }

    /// Add vector and float value
    pub fn addValue(self: Vector4, add_: f32) Vector4 {
        return math.vector4AddValue(self, add_);
    }

    /// Subtract two vectors
    pub fn subtract(self: Vector4, v: Vector4) Vector4 {
        return math.vector4Subtract(self, v);
    }

    /// Subtract vector and float value
    pub fn subtractValue(self: Vector4, add_: f32) Vector4 {
        return math.vector4SubtractValue(self, add_);
    }

    /// Computes the length of a vector
    pub fn length(self: Vector4) f32 {
        return math.vector4Length(self);
    }

    /// Calculate vector square length
    pub fn lengthSqr(self: Vector4) f32 {
        return math.vector4LengthSqr(self);
    }

    /// Calculate two vectors dot product
    pub fn dotProduct(self: Vector4, v: Vector4) f32 {
        return math.vector4DotProduct(self, v);
    }

    /// Calculate distance between two vectors
    pub fn distance(self: Vector4, v: Vector4) f32 {
        return math.vector4Distance(self, v);
    }

    /// Calculate square distance between two vectors
    pub fn distanceSqr(self: Vector4, v: Vector4) f32 {
        return math.vector4DistanceSqr(self, v);
    }

    /// Scale vector by float value
    pub fn scale(self: Vector4, scale_: f32) Vector4 {
        return math.vector4Scale(self, scale_);
    }

    /// Multiply vector by vector
    pub fn multiply(self: Vector4, v: Vector4) Vector4 {
        return math.vector4Multiply(self, v);
    }

    /// Negate vector
    pub fn negate(self: Vector4) Vector4 {
        return math.vector4Negate(self);
    }

    /// Divide two vectors
    pub fn divide(self: Vector4, v: Vector4) Vector4 {
        return math.vector4Divide(self, v);
    }

    /// Normalize vector
    pub fn normalize(self: Vector4) Vector4 {
        return math.vector4Normalize(self);
    }

    /// Get min value for each pair of components
    pub fn min(self: Vector4, v: Vector4) Vector4 {
        return math.vector4Min(self, v);
    }

    /// Get max value for each pair of components
    pub fn max(self: Vector4, v: Vector4) Vector4 {
        return math.vector4Max(self, v);
    }

    /// Calculate linear interpolation between two vectors
    pub fn lerp(self: Vector4, v: Vector4, amount: f32) Vector4 {
        return math.vector4Lerp(self, v, amount);
    }

    /// Move Vector towards target
    pub fn moveTowards(self: Vector4, target: Vector4, maxDistance: f32) Vector4 {
        return math.vector4MoveTowards(self, target, maxDistance);
    }

    /// Invert provided quaternion
    pub fn invert(self: Vector4) Vector4 {
        return math.vector4Invert(self);
    }

    /// Check whether two given quaternions are almost equal
    pub fn equals(p: Vector4, q: Vector4) i32 {
        return math.vector4Equals(p, q);
    }

    /// Get identity quaternion
    pub fn identity() Quaternion {
        return math.quaternionIdentity();
    }

    /// Calculate slerp-optimized interpolation between two quaternions
    pub fn nlerp(self: Quaternion, q: Quaternion, amount: f32) Quaternion {
        return math.quaternionNlerp(self, q, amount);
    }

    /// Calculates spherical linear interpolation between two quaternions
    pub fn slerp(self: Quaternion, q: Quaternion, amount: f32) Quaternion {
        return math.quaternionSlerp(self, q, amount);
    }

    /// Calculate quaternion cubic spline interpolation using Cubic Hermite Spline
    /// algorithm as described in the GLTF 2.0 specification
    pub fn cubicHermiteSpline(self: Quaternion, outTangent1: Quaternion, q: Quaternion, inTangent2: Quaternion, t: f32) Quaternion {
        return math.quaternionCubicHermiteSpline(self, outTangent1, q, inTangent2, t);
    }

    // Calculate quaternion based on the rotation from one vector to another
    pub fn fromVector3ToVector3(from: Vector3, to: Vector3) Quaternion {
        return math.quaternionFromVector3ToVector3(from, to);
    }

    /// Get a quaternion for a given rotation matrix
    pub fn fromMatrix(mat: Matrix) Quaternion {
        return math.quaternionFromMatrix(mat);
    }

    /// Get a matrix for a given quaternion
    pub fn toMatrix(self: Quaternion) Matrix {
        return math.quaternionToMatrix(self);
    }

    /// Get rotation quaternion for an angle and axis
    /// NOTE: Angle must be provided in radians
    pub fn fromAxisAngle(axis: Vector3, angle: f32) Quaternion {
        return math.quaternionFromAxisAngle(axis, angle);
    }

    /// Get the rotation angle and axis for a given quaternion
    pub fn toAxisAngle(self: Quaternion, outAxis: *Vector3, outAngle: *f32) void {
        math.quaternionToAxisAngle(self, outAxis, outAngle);
    }

    /// Get the quaternion equivalent to Euler angles
    /// NOTE: Rotation order is ZYX
    pub fn fromEuler(pitch: f32, yaw: f32, roll: f32) Quaternion {
        return math.quaternionFromEuler(pitch, yaw, roll);
    }

    /// Get the Euler angles equivalent to quaternion (roll, pitch, yaw)
    /// NOTE: Angles are returned in a Vector3 struct in radians
    pub fn toEuler(self: Quaternion) Vector3 {
        return math.quaternionToEuler(self);
    }

    /// Transform a quaternion given a transformation matrix
    pub fn transform(self: Quaternion, mat: Matrix) Quaternion {
        return math.quaternionTransform(self, mat);
    }
};
pub const Quaternion = Vector4;

pub const Matrix = extern struct {
    m0: f32,
    m4: f32,
    m8: f32,
    m12: f32,
    m1: f32,
    m5: f32,
    m9: f32,
    m13: f32,
    m2: f32,
    m6: f32,
    m10: f32,
    m14: f32,
    m3: f32,
    m7: f32,
    m11: f32,
    m15: f32,

    /// Compute matrix determinant
    pub fn determinant(self: Matrix) f32 {
        return math.matrixDeterminant(self);
    }

    /// Get the trace of the matrix (sum of the values along the diagonal)
    pub fn trace(self: Matrix) f32 {
        return math.matrixTrace(self);
    }

    /// Transposes provided matrix
    pub fn transpose(self: Matrix) Matrix {
        return math.matrixTranspose(self);
    }

    /// Invert provided matrix
    pub fn invert(self: Matrix) Matrix {
        return math.matrixInvert(self);
    }

    /// Get identity matrix
    pub fn identity() Matrix {
        return math.matrixIdentity();
    }

    /// Add two matrices
    pub fn add(self: Matrix, right: Matrix) Matrix {
        return math.matrixAdd(self, right);
    }

    /// Subtract two matrices (left - right)
    pub fn subtract(self: Matrix, right: Matrix) Matrix {
        return math.matrixSubtract(self, right);
    }

    /// Get two matrix multiplication
    /// NOTE: When multiplying matrices... the order matters!
    pub fn multiply(self: Matrix, right: Matrix) Matrix {
        return math.matrixMultiply(self, right);
    }

    /// Get translation matrix
    pub fn translate(x: f32, y: f32, z: f32) Matrix {
        return math.matrixTranslate(x, y, z);
    }

    /// Create rotation matrix from axis and angle
    /// NOTE: Angle should be provided in radians
    pub fn rotate(axis: Vector3, angle: f32) Matrix {
        return math.matrixRotate(axis, angle);
    }

    /// Get x-rotation matrix
    /// NOTE: Angle must be provided in radians
    pub fn rotateX(angle: f32) Matrix {
        return math.matrixRotateX(angle);
    }

    /// Get y-rotation matrix
    /// NOTE: Angle must be provided in radians
    pub fn rotateY(angle: f32) Matrix {
        return math.matrixRotateY(angle);
    }

    /// Get z-rotation matrix
    /// NOTE: Angle must be provided in radians
    pub fn rotateZ(angle: f32) Matrix {
        return math.matrixRotateZ(angle);
    }

    /// Get xyz-rotation matrix
    /// NOTE: Angle must be provided in radians
    pub fn rotateXYZ(angle: Vector3) Matrix {
        return math.matrixRotateXYZ(angle);
    }

    /// Get zyx-rotation matrix
    /// NOTE: Angle must be provided in radians
    pub fn rotateZYX(angle: Vector3) Matrix {
        return math.matrixRotateZYX(angle);
    }

    /// Get scaling matrix
    pub fn scale(x: f32, y: f32, z: f32) Matrix {
        return math.matrixScale(x, y, z);
    }

    /// Get perspective projection matrix
    pub fn frustum(left: f64, right: f64, bottom: f64, top: f64, near: f64, far: f64) Matrix {
        return math.matrixFrustum(left, right, bottom, top, near, far);
    }

    /// Get perspective projection matrix
    /// NOTE: Fovy angle must be provided in radians
    pub fn perspective(fovY: f64, aspect: f64, nearPlane: f64, farPlane: f64) Matrix {
        return math.matrixPerspective(fovY, aspect, nearPlane, farPlane);
    }

    /// Get orthographic projection matrix
    pub fn ortho(left: f64, right: f64, bottom: f64, top: f64, nearPlane: f64, farPlane: f64) Matrix {
        return math.matrixOrtho(left, right, bottom, top, nearPlane, farPlane);
    }

    /// Get camera look-at matrix (view matrix)
    pub fn lookAt(eye: Vector3, target: Vector3, up: Vector3) Matrix {
        return math.matrixLookAt(eye, target, up);
    }

    /// Get float array of matrix data
    pub fn toFloatV(self: Matrix) math.float16 {
        return math.matrixToFloatV(self);
    }
};

pub const Color = extern struct {
    r: u8,
    g: u8,
    b: u8,
    a: u8,

    pub const light_gray = Color.init(200, 200, 200, 255);
    pub const gray = Color.init(130, 130, 130, 255);
    pub const dark_gray = Color.init(80, 80, 80, 255);
    pub const yellow = Color.init(253, 249, 0, 255);
    pub const gold = Color.init(255, 203, 0, 255);
    pub const orange = Color.init(255, 161, 0, 255);
    pub const pink = Color.init(255, 109, 194, 255);
    pub const red = Color.init(230, 41, 55, 255);
    pub const maroon = Color.init(190, 33, 55, 255);
    pub const green = Color.init(0, 228, 48, 255);
    pub const lime = Color.init(0, 158, 47, 255);
    pub const dark_green = Color.init(0, 117, 44, 255);
    pub const sky_blue = Color.init(102, 191, 255, 255);
    pub const blue = Color.init(0, 121, 241, 255);
    pub const dark_blue = Color.init(0, 82, 172, 255);
    pub const purple = Color.init(200, 122, 255, 255);
    pub const violet = Color.init(135, 60, 190, 255);
    pub const dark_purple = Color.init(112, 31, 126, 255);
    pub const beige = Color.init(211, 176, 131, 255);
    pub const brown = Color.init(127, 106, 79, 255);
    pub const dark_brown = Color.init(76, 63, 47, 255);

    pub const white = Color.init(255, 255, 255, 255);
    pub const black = Color.init(0, 0, 0, 255);
    pub const blank = Color.init(0, 0, 0, 0);
    pub const magenta = Color.init(255, 0, 255, 255);
    pub const ray_white = Color.init(245, 245, 245, 255);

    pub fn init(r: u8, g: u8, b: u8, a: u8) Color {
        return Color{ .r = r, .g = g, .b = b, .a = a };
    }

    /// Get Color from normalized values [0..1]
    pub fn fromNormalized(normalized: Vector4) Color {
        return rl.colorFromNormalized(normalized);
    }

    /// Get a Color from HSV values, hue [0..360], saturation/value [0..1]
    pub fn fromHSV(hue: f32, saturation: f32, value: f32) Color {
        return rl.colorFromHSV(hue, saturation, value);
    }

    /// Get a Color from hexadecimal value
    pub fn fromInt(hexValue: u32) Color {
        return rl.getColor(hexValue);
    }

    /// Get color with alpha applied, alpha goes from 0.0 to 1.0
    pub fn fade(self: Color, a: f32) Color {
        return rl.fade(self, a);
    }

    /// Get color multiplied with another color
    pub fn tint(self: Color, t: Color) Color {
        return rl.colorTint(self, t);
    }

    /// Get Color normalized as float [0..1]
    pub fn normalize(self: Color) Vector4 {
        return rl.colorNormalize(self);
    }

    /// Get color with brightness correction, brightness factor goes from -1.0 to 1.0
    pub fn brightness(self: Color, factor: f32) Color {
        return rl.colorBrightness(self, factor);
    }

    /// Get color with contrast correction, contrast values between -1.0 and 1.0
    pub fn contrast(self: Color, c: f32) Color {
        return rl.colorContrast(self, c);
    }

    /// Get color with alpha applied, alpha goes from 0.0 to 1.0
    pub fn alpha(self: Color, a: f32) Color {
        return rl.colorAlpha(self, a);
    }

    /// Get hexadecimal value for a Color
    pub fn toInt(self: Color) i32 {
        return rl.colorToInt(self);
    }

    /// Get HSV values for a Color, hue [0..360], saturation/value [0..1]
    pub fn toHSV(self: Color) Vector3 {
        return rl.colorToHSV(self);
    }
};

pub const Rectangle = extern struct {
    x: f32,
    y: f32,
    width: f32,
    height: f32,

    pub fn init(x: f32, y: f32, width: f32, height: f32) Rectangle {
        return Rectangle{ .x = x, .y = y, .width = width, .height = height };
    }

    /// Check collision between two rectangles
    pub fn checkCollision(self: Rectangle, rec2: Rectangle) bool {
        return rl.checkCollisionRecs(self, rec2);
    }

    /// Get collision rectangle for two rectangles collision
    pub fn getCollision(self: Rectangle, rec2: Rectangle) Rectangle {
        return rl.getCollisionRec(self, rec2);
    }
};

pub const Image = extern struct {
    data: *anyopaque,
    width: c_int,
    height: c_int,
    mipmaps: c_int,
    format: PixelFormat,

    /// Load image from file into CPU memory (RAM)
    pub fn init(fileName: [:0]const u8) RaylibError!Image {
        return rl.loadImage(fileName);
    }

    /// Load image from RAW file data
    pub fn initRaw(fileName: [:0]const u8, width: i32, height: i32, format: PixelFormat, headerSize: i32) RaylibError!Image {
        return rl.loadImageRaw(fileName, width, height, format, headerSize);
    }

    /// Load image sequence from file (frames appended to image.data)
    pub fn initAnim(fileName: [:0]const u8, frames: *i32) RaylibError!Image {
        return rl.loadImageAnim(fileName, frames);
    }

    /// Load image from GPU texture data
    pub fn fromTexture(texture: Texture) RaylibError!Image {
        return rl.loadImageFromTexture(texture);
    }

    /// Load image from screen buffer and (screenshot)
    pub fn fromScreen() RaylibError!Image {
        return rl.loadImageFromScreen();
    }

    /// Unload image from CPU memory (RAM)
    pub fn unload(self: Image) void {
        rl.unloadImage(self);
    }

    /// Create an image from text (default font)
    pub fn initText(text: [:0]const u8, fontSize: i32, color: Color) RaylibError!Image {
        return rl.imageText(text, fontSize, color);
    }

    /// Create an image from text (custom sprite font)
    pub fn initTextEx(font: Font, text: [:0]const u8, fontSize: f32, spacing: f32, t: Color) RaylibError!Image {
        return rl.imageTextEx(font, text, fontSize, spacing, t);
    }

    /// Generate image: plain color
    pub fn genColor(width: i32, height: i32, color: Color) Image {
        return rl.genImageColor(width, height, color);
    }

    /// Generate image: linear gradient, direction in degrees [0..360], 0=Vertical gradient
    pub fn genGradientLinear(width: i32, height: i32, direction: i32, start: Color, end: Color) Image {
        return rl.genImageGradientLinear(width, height, direction, start, end);
    }

    /// Generate image: radial gradient
    pub fn genGradientRadial(width: i32, height: i32, density: f32, inner: Color, outer: Color) Image {
        return rl.genImageGradientRadial(width, height, density, inner, outer);
    }

    /// Generate image: square gradient
    pub fn genGradientSquare(width: i32, height: i32, density: f32, inner: Color, outer: Color) Image {
        return rl.genImageGradientSquare(width, height, density, inner, outer);
    }

    /// Generate image: checked
    pub fn genChecked(width: i32, height: i32, checksX: i32, checksY: i32, col1: Color, col2: Color) Image {
        return rl.genImageChecked(width, height, checksX, checksY, col1, col2);
    }

    /// Generate image: white noise
    pub fn genWhiteNoise(width: i32, height: i32, factor: f32) Image {
        return rl.genImageWhiteNoise(width, height, factor);
    }

    /// Generate image: perlin noise
    pub fn genPerlinNoise(width: i32, height: i32, offsetX: i32, offsetY: i32, scale: f32) Image {
        return rl.genImagePerlinNoise(width, height, offsetX, offsetY, scale);
    }

    /// Generate image: cellular algorithm, bigger tileSize means bigger cells
    pub fn genCellular(width: i32, height: i32, tileSize: i32) Image {
        return rl.genImageCellular(width, height, tileSize);
    }

    /// Generate image: grayscale image from text data
    pub fn genText(width: i32, height: i32, text: [:0]const u8) Image {
        return rl.genImageText(width, height, text);
    }

    /// Create an image duplicate (useful for transformations)
    pub fn copy(self: Image) Image {
        return rl.imageCopy(self);
    }

    /// Create an image from another image piece
    pub fn copyRec(self: Image, rec: Rectangle) Image {
        return rl.imageFromImage(self, rec);
    }

    /// Convert image data to desired format
    pub fn setFormat(self: *Image, newFormat: PixelFormat) void {
        return rl.imageFormat(self, newFormat);
    }

    /// Convert image to POT (power-of-two)
    pub fn toPOT(self: *Image, fill: Color) void {
        rl.imageToPOT(self, fill);
    }

    /// Crop an image to a defined rectangle
    pub fn crop(self: *Image, c: Rectangle) void {
        rl.imageCrop(self, c);
    }

    /// Crop image depending on alpha value
    pub fn alphaCrop(self: *Image, threshold: f32) void {
        rl.imageAlphaCrop(self, threshold);
    }

    /// Clear alpha channel to desired color
    pub fn alphaClear(self: *Image, color: Color, threshold: f32) void {
        rl.imageAlphaClear(self, color, threshold);
    }

    /// Apply alpha mask to image
    pub fn alphaMask(self: *Image, am: Image) void {
        rl.imageAlphaMask(self, am);
    }

    /// Premultiply alpha channel
    pub fn alphaPremultiply(self: *Image) void {
        rl.imageAlphaPremultiply(self);
    }

    /// Apply Gaussian blur using a box blur approximation
    pub fn blurGaussian(self: *Image, blurSize: i32) void {
        rl.imageBlurGaussian(self, blurSize);
    }

    /// Resize image (Bicubic scaling algorithm)
    pub fn resize(self: *Image, newWidth: i32, newHeight: i32) void {
        rl.imageResize(self, newWidth, newHeight);
    }

    /// Resize image (Nearest-Neighbor scaling algorithm)
    pub fn resizeNN(self: *Image, newWidth: i32, newHeight: i32) void {
        rl.imageResizeNN(self, newWidth, newHeight);
    }

    /// Resize canvas and fill with color
    pub fn resizeCanvas(self: *Image, newWidth: i32, newHeight: i32, offsetX: i32, offsetY: i32, fill: Color) void {
        rl.imageResizeCanvas(self, newWidth, newHeight, offsetX, offsetY, fill);
    }

    /// Compute all mipmap levels for a provided image
    pub fn mimaps(self: *Image) void {
        rl.imageMipmaps(self);
    }

    /// Dither image data to 16bpp or lower (Floyd-Steinberg dithering)
    pub fn dither(self: *Image, rBpp: i32, gBpp: i32, bBpp: i32, aBpp: i32) void {
        rl.imageDither(self, rBpp, gBpp, bBpp, aBpp);
    }

    /// Flip image vertically
    pub fn flipVertical(self: *Image) void {
        rl.imageFlipVertical(self);
    }

    /// Flip image horizontally
    pub fn flipHorizontal(self: *Image) void {
        rl.imageFlipHorizontal(self);
    }

    /// Rotate image by input angle in degrees (-359 to 359)
    pub fn rotate(self: *Image, degrees: i32) void {
        rl.imageRotate(self, degrees);
    }

    /// Rotate image clockwise 90deg
    pub fn rotateCW(self: *Image) void {
        rl.imageRotateCW(self);
    }

    /// Rotate image counter-clockwise 90deg
    pub fn rotateCCW(self: *Image) void {
        rl.imageRotateCCW(self);
    }

    /// Modify image color: tint
    pub fn tint(self: *Image, color: Color) void {
        rl.imageColorTint(self, color);
    }

    /// Modify image color: invert
    pub fn invert(self: *Image) void {
        rl.imageColorInvert(self);
    }

    /// Modify image color: grayscale
    pub fn grayscale(self: *Image) void {
        rl.imageColorGrayscale(self);
    }

    /// Modify image color: contrast (-100 to 100)
    pub fn contrast(self: *Image, c: f32) void {
        rl.imageColorContrast(self, c);
    }

    /// Modify image color: brightness (-255 to 255)
    pub fn brightness(self: *Image, b: i32) void {
        rl.imageColorBrightness(self, b);
    }

    /// Modify image color: replace color
    pub fn replaceColor(self: *Image, color: Color, replace: Color) void {
        rl.imageColorReplace(self, color, replace);
    }

    /// Get image alpha border rectangle
    pub fn getAlphaBorder(self: Image, threshold: f32) Rectangle {
        return rl.getImageAlphaBorder(self, threshold);
    }

    /// Get image pixel color at (x, y) position
    pub fn getColor(self: Image, x: i32, y: i32) Color {
        return rl.getImageColor(self, x, y);
    }

    /// Clear image background with given color
    pub fn clearBackground(self: *Image, color: Color) void {
        rl.imageClearBackground(self, color);
    }

    /// Draw pixel within an image
    pub fn drawPixel(self: *Image, posX: i32, posY: i32, color: Color) void {
        rl.imageDrawPixel(self, posX, posY, color);
    }

    /// Draw pixel within an image (Vector version)
    pub fn drawPixelV(self: *Image, position: Vector2, color: Color) void {
        rl.imageDrawPixelV(self, position, color);
    }

    /// Draw line within an image
    pub fn drawLine(self: *Image, startPosX: i32, startPosY: i32, endPosX: i32, endPosY: i32, color: Color) void {
        rl.imageDrawLine(self, startPosX, startPosY, endPosX, endPosY, color);
    }

    /// Draw line within an image (Vector version)
    pub fn drawLineV(self: *Image, start: Vector2, end: Vector2, color: Color) void {
        rl.imageDrawLineV(self, start, end, color);
    }

    /// Draw a filled circle within an image
    pub fn drawCircle(self: *Image, centerX: i32, centerY: i32, radius: i32, color: Color) void {
        rl.imageDrawCircle(self, centerX, centerY, radius, color);
    }

    /// Draw a filled circle within an image (Vector version)
    pub fn drawCircleV(self: *Image, center: Vector2, radius: i32, color: Color) void {
        rl.imageDrawCircleV(self, center, radius, color);
    }

    /// Draw circle outline within an image
    pub fn drawCircleLines(self: *Image, centerX: i32, centerY: i32, radius: i32, color: Color) void {
        rl.imageDrawCircleLines(self, centerX, centerY, radius, color);
    }

    /// Draw circle outline within an image (Vector version)
    pub fn drawCircleLinesV(self: *Image, center: Vector2, radius: i32, color: Color) void {
        rl.imageDrawCircleLinesV(self, center, radius, color);
    }

    /// Draw rectangle within an image
    pub fn drawRectangle(self: *Image, posX: i32, posY: i32, width: i32, height: i32, color: Color) void {
        rl.imageDrawRectangle(self, posX, posY, width, height, color);
    }

    /// Draw rectangle within an image (Vector version)
    pub fn drawRectangleV(self: *Image, position: Vector2, size: Vector2, color: Color) void {
        rl.imageDrawRectangleV(self, position, size, color);
    }

    /// Draw rectangle within an image
    pub fn drawRectangleRec(self: *Image, rec: Rectangle, color: Color) void {
        rl.imageDrawRectangleRec(self, rec, color);
    }

    /// Draw rectangle lines within an image
    pub fn drawRectangleLines(self: *Image, rec: Rectangle, thick: i32, color: Color) void {
        rl.imageDrawRectangleLines(self, rec, thick, color);
    }

    /// Draw a source image within a destination image (tint applied to source)
    pub fn drawImage(self: *Image, src: Image, srcRec: Rectangle, dstRec: Rectangle, t: Color) void {
        rl.imageDraw(self, src, srcRec, dstRec, t);
    }

    /// Draw text (using default font) within an image (destination)
    pub fn drawText(self: *Image, text: [:0]const u8, posX: i32, posY: i32, fontSize: i32, color: Color) void {
        rl.imageDrawText(self, text, posX, posY, fontSize, color);
    }

    /// Draw text (custom sprite font) within an image (destination)
    pub fn drawTextEx(self: *Image, font: Font, text: [:0]const u8, position: Vector2, fontSize: f32, spacing: f32, t: Color) void {
        rl.imageDrawTextEx(self, font, text, position, fontSize, spacing, t);
    }

    /// Export image data to file, returns true on success
    pub fn exportToFile(self: Image, fileName: [:0]const u8) bool {
        return rl.exportImage(self, fileName);
    }

    /// Export image as code file defining an array of bytes, returns true on success
    pub fn exportAsCode(self: Image, fileName: [:0]const u8) bool {
        return rl.exportImageAsCode(self, fileName);
    }

    /// Set icon for window (single image, RGBA 32bit, only PLATFORM_DESKTOP)
    pub fn useAsWindowIcon(self: Image) void {
        rl.setWindowIcon(self);
    }

    /// Load texture from image data
    pub fn toTexture(self: Image) RaylibError!Texture {
        return Texture.fromImage(self);
    }

    pub fn asCubemap(self: Image, layout: CubemapLayout) RaylibError!Texture {
        return Texture.fromCubemap(self, layout);
    }
};

pub const Texture = extern struct {
    id: c_uint,
    width: c_int,
    height: c_int,
    mipmaps: c_int,
    format: PixelFormat,

    pub fn init(fileName: [:0]const u8) RaylibError!Texture {
        return rl.loadTexture(fileName);
    }

    /// Load texture from image data
    pub fn fromImage(image: Image) RaylibError!Texture {
        return rl.loadTextureFromImage(image);
    }

    /// Load cubemap from image, multiple image cubemap layouts supported
    pub fn fromCubemap(image: Image, layout: CubemapLayout) RaylibError!Texture {
        return rl.loadTextureCubemap(image, layout);
    }

    /// Unload texture from GPU memory (VRAM)
    pub fn unload(self: Texture) void {
        rl.unloadTexture(self);
    }

    /// Draw a Texture2D
    pub fn draw(self: Texture, posX: i32, posY: i32, tint: Color) void {
        rl.drawTexture(self, posX, posY, tint);
    }

    /// Draw a Texture2D with position defined as Vector2
    pub fn drawV(self: Texture, position: Vector2, tint: Color) void {
        rl.drawTextureV(self, position, tint);
    }

    /// Draw a Texture2D with extended parameters
    pub fn drawEx(self: Texture, position: Vector2, rotation: f32, scale: f32, tint: Color) void {
        rl.drawTextureEx(self, position, rotation, scale, tint);
    }

    /// Draw a part of a texture defined by a rectangle
    pub fn drawRec(self: Texture, source: Rectangle, position: Vector2, tint: Color) void {
        rl.drawTextureRec(self, source, position, tint);
    }

    /// Draw a part of a texture defined by a rectangle with 'pro' parameters
    pub fn drawPro(self: Texture, source: Rectangle, dest: Rectangle, origin: Vector2, rotation: f32, tint: Color) void {
        rl.drawTexturePro(self, source, dest, origin, rotation, tint);
    }

    /// Draws a texture (or part of it) that stretches or shrinks nicely
    pub fn drawNPatch(self: Texture, nPatchInfo: NPatchInfo, dest: Rectangle, origin: Vector2, rotation: f32, tint: Color) void {
        rl.drawTextureNPatch(self, nPatchInfo, dest, origin, rotation, tint);
    }
};
pub const Texture2D = Texture;
pub const TextureCubemap = Texture;

pub const RenderTexture = extern struct {
    id: c_uint,
    texture: Texture,
    depth: Texture,

    pub fn init(width: i32, height: i32) RaylibError!RenderTexture {
        return rl.loadRenderTexture(width, height);
    }

    /// Unload render texture from GPU memory (VRAM)
    pub fn unload(self: RenderTexture) void {
        rl.unloadRenderTexture(self);
    }

    /// Begin drawing to render texture
    pub fn begin(self: RenderTexture2D) void {
        rl.beginTextureMode(self);
    }

    /// Ends drawing to render texture
    pub fn end(_: RenderTexture2D) void {
        rl.endTextureMode();
    }
};
pub const RenderTexture2D = RenderTexture;

pub const NPatchInfo = extern struct {
    source: Rectangle,
    left: c_int,
    top: c_int,
    right: c_int,
    bottom: c_int,
    layout: c_int,
};

pub const GlyphInfo = extern struct {
    value: c_int,
    offsetX: c_int,
    offsetY: c_int,
    advanceX: c_int,
    image: Image,
};

pub const Font = extern struct {
    baseSize: c_int,
    glyphCount: c_int,
    glyphPadding: c_int,
    texture: Texture2D,
    recs: [*c]Rectangle,
    glyphs: [*c]GlyphInfo,

    /// Load font from file into GPU memory (VRAM)
    pub fn init(fileName: [:0]const u8) RaylibError!Font {
        return rl.loadFont(fileName);
    }

    /// Load font from file with extended parameters, use null for fontChars to load the default character set
    pub fn initEx(fileName: [:0]const u8, fontSize: i32, fontChars: ?[]i32) RaylibError!Font {
        return rl.loadFontEx(fileName, fontSize, fontChars);
    }

    /// Load font from Image (XNA style)
    pub fn fromImage(image: Image, key: Color, firstChar: i32) RaylibError!Font {
        return rl.loadFontFromImage(image, key, firstChar);
    }

    /// Load font from memory buffer, fileType refers to extension: i.e. '.ttf'
    pub fn fromMemory(fileType: [:0]const u8, fileData: ?[]const u8, fontSize: i32, fontChars: ?[]i32) RaylibError!Font {
        return rl.loadFontFromMemory(fileType, fileData, fontSize, fontChars);
    }

    /// Unload font from GPU memory (VRAM)
    pub fn unload(self: Font) void {
        rl.unloadFont(self);
    }

    /// Check if a font is ready
    pub fn isReady(self: Font) bool {
        return rl.isFontValid(self);
    }

    /// Export font as code file, returns true on success
    pub fn exportAsCode(self: Font, fileName: [:0]const u8) bool {
        return rl.exportFontAsCode(self, fileName);
    }
};

pub const Camera3D = extern struct {
    position: Vector3,
    target: Vector3,
    up: Vector3,
    fovy: f32,
    projection: CameraProjection,

    /// Begin 3D mode with camera
    pub fn begin(self: Camera3D) void {
        rl.beginMode3D(self);
    }

    /// Update camera position for selected mode
    pub fn update(self: *Camera3D, mode: CameraMode) void {
        rl.updateCamera(self, mode);
    }

    /// Get camera transform matrix (view matrix)
    pub fn getMatrix(self: Camera3D) Matrix {
        return rl.getCameraMatrix(self);
    }

    /// Ends 3D mode and returns to default 2D orthographic mode
    pub fn end(_: Camera3D) void {
        rl.endMode3D();
    }
};
pub const Camera = Camera3D;

pub const Camera2D = extern struct {
    offset: Vector2,
    target: Vector2,
    rotation: f32,
    zoom: f32,

    /// Begin 2D mode with camera
    pub fn begin(self: Camera2D) void {
        rl.beginMode2D(self);
    }

    /// Get camera 2d transform matrix
    pub fn getMatrix(self: Camera2D) Matrix {
        return rl.getCameraMatrix2D(self);
    }

    /// Ends 2D mode with camera
    pub fn end(_: Camera2D) void {
        rl.endMode2D();
    }
};

pub const Mesh = extern struct {
    vertexCount: c_int,
    triangleCount: c_int,
    vertices: [*c]f32,
    texcoords: [*c]f32,
    texcoords2: [*c]f32,
    normals: [*c]f32,
    tangents: [*c]f32,
    colors: [*c]u8,
    indices: [*c]c_ushort,
    animVertices: [*c]f32,
    animNormals: [*c]f32,
    boneIds: [*c]u8,
    boneWeights: [*c]f32,
    boneMatrices: [*c]Matrix,
    boneCount: c_int,
    vaoId: c_int,
    vboId: [*c]c_int,

    /// Draw a 3d mesh with material and transform
    pub fn draw(self: Mesh, material: Material, transform: Matrix) void {
        rl.drawMesh(self, material, transform);
    }

    /// Draw multiple mesh instances with material and different transforms
    pub fn drawInstanced(self: Mesh, material: Material, transforms: []const Matrix) void {
        rl.drawMeshInstanced(self, material, transforms);
    }

    /// Unload mesh data from CPU and GPU
    pub fn unload(self: Mesh) void {
        rl.unloadMesh(self);
    }
};

pub const Shader = extern struct {
    id: c_uint,
    locs: [*c]c_int,

    /// Begin custom shader drawing
    pub fn activate(self: Shader) void {
        rl.beginShaderMode(self);
    }

    /// End custom shader drawing (use default shader)
    pub fn deactivate(_: Shader) void {
        rl.endShaderMode();
    }

    /// Unload shader from GPU memory (VRAM)
    pub fn unload(self: Shader) void {
        rl.unloadShader(self);
    }
};

pub const MaterialMap = extern struct {
    texture: Texture2D,
    color: Color,
    value: f32,
};

pub const Material = extern struct {
    shader: Shader,
    maps: [*c]MaterialMap,
    params: [4]f32,

    /// Unload material from GPU memory (VRAM)
    pub fn unload(self: Material) void {
        rl.unloadMaterial(self);
    }
};

pub const Transform = extern struct {
    translation: Vector3,
    rotation: Quaternion,
    scale: Vector3,
};

pub const BoneInfo = extern struct {
    name: [32]u8,
    parent: c_int,
};

pub const Model = extern struct {
    transform: Matrix,
    meshCount: c_int,
    materialCount: c_int,
    meshes: [*c]Mesh,
    materials: [*c]Material,
    meshMaterial: [*c]c_int,
    boneCount: c_int,
    bones: [*c]BoneInfo,
    bindPose: [*c]Transform,

    /// Load model from file (meshes and materials)
    pub fn init(fileName: [:0]const u8) RaylibError!Model {
        return rl.loadModel(fileName);
    }

    /// Load model from generated mesh (default material)
    pub fn fromMesh(mesh: Mesh) RaylibError!Model {
        return rl.loadModelFromMesh(mesh);
    }

    /// Unload model (including meshes) from memory (RAM and/or VRAM)
    pub fn unload(self: Model) void {
        rl.unloadModel(self);
    }

    /// Draw a model (with texture if set)
    pub fn draw(self: Model, position: Vector3, scale: f32, tint: Color) void {
        return rl.drawModel(self, position, scale, tint);
    }

    /// Draw a model with extended parameters
    pub fn drawEx(self: Model, position: Vector3, rotationAxis: Vector3, rotationAngle: f32, scale: Vector3, tint: Color) void {
        return rl.drawModelEx(self, position, rotationAxis, rotationAngle, scale, tint);
    }

    /// Draw a model wires (with texture if set)
    pub fn drawWires(self: Model, position: Vector3, scale: f32, tint: Color) void {
        return rl.drawModelWires(self, position, scale, tint);
    }

    /// Draw a model wires (with texture if set) with extended parameters
    pub fn drawWiresEx(self: Model, position: Vector3, rotationAxis: Vector3, rotationAngle: f32, scale: Vector3, tint: Color) void {
        return rl.drawModelWiresEx(self, position, rotationAxis, rotationAngle, scale, tint);
    }
};

pub const ModelAnimation = extern struct {
    boneCount: c_int,
    frameCount: c_int,
    bones: [*c]BoneInfo,
    framePoses: [*c][*c]Transform,
    name: [32]u8,

    /// Unload animation data
    pub fn unload(self: ModelAnimation) void {
        rl.unloadModelAnimation(self);
    }
};

pub const Ray = extern struct {
    position: Vector3,
    direction: Vector3,
};

pub const RayCollision = extern struct {
    hit: bool,
    distance: f32,
    point: Vector3,
    normal: Vector3,
};

pub const BoundingBox = extern struct {
    min: Vector3,
    max: Vector3,
};

pub const Wave = extern struct {
    frameCount: c_uint,
    sampleRate: c_uint,
    sampleSize: c_uint,
    channels: c_uint,
    data: *anyopaque,

    /// Unload wave data
    pub fn unload(self: Wave) void {
        rl.unloadWave(self);
    }
};

pub const rAudioBuffer = opaque {};
pub const rAudioProcessor = opaque {};

pub const AudioStream = extern struct {
    buffer: *rAudioBuffer,
    processor: *rAudioProcessor,
    sampleRate: c_uint,
    sampleSize: c_uint,
    channels: c_uint,

    /// Unload audio stream and free memory
    pub fn unload(self: AudioStream) void {
        rl.unloadAudioStream(self);
    }
};

pub const Sound = extern struct {
    stream: AudioStream,
    frameCount: c_uint,

    /// Unload sound
    pub fn unload(self: Sound) void {
        rl.unloadSound(self);
    }
};

pub const Music = extern struct {
    stream: AudioStream,
    frameCount: c_uint,
    looping: bool,
    ctxType: c_int,
    ctxData: *anyopaque,

    /// Unload music stream
    pub fn unload(self: Music) void {
        rl.unloadMusicStream(self);
    }
};

pub const VrDeviceInfo = extern struct {
    hResolution: c_int,
    vResolution: c_int,
    hScreenSize: f32,
    vScreenSize: f32,
    vScreenCenter: f32,
    eyeToScreenDistance: f32,
    lensSeparationDistance: f32,
    interpupillaryDistance: f32,
    lensDistortionValues: [4]f32,
    chromaAbCorrection: [4]f32,
};

pub const VrStereoConfig = extern struct {
    projection: [2]Matrix,
    viewOffset: [2]Matrix,
    leftLensCenter: [2]f32,
    rightLensCenter: [2]f32,
    leftScreenCenter: [2]f32,
    rightScreenCenter: [2]f32,
    scale: [2]f32,
    scaleIn: [2]f32,

    /// Unload VR stereo config
    pub fn unload(self: VrStereoConfig) void {
        rl.unloadVrStereoConfig(self);
    }
};

pub const FilePathList = extern struct {
    capacity: c_uint,
    count: c_uint,
    paths: [*c][*c]u8,
};

pub const AutomationEvent = extern struct {
    frame: c_uint,
    type: c_uint,
    params: [4]c_int,
};

pub const AutomationEventList = extern struct {
    capacity: c_uint,
    count: c_uint,
    events: [*c]AutomationEvent,

    /// Unload automation events list from file
    pub fn unload(self: AutomationEventList) void {
        rl.unloadAutomationEventList(self);
    }
};

pub const ConfigFlags = packed struct {
    __reserved: bool = false,
    fullscreen_mode: bool = false,
    window_resizable: bool = false,
    window_undecorated: bool = false,
    window_transparent: bool = false,
    msaa_4x_hint: bool = false,
    vsync_hint: bool = false,
    window_hidden: bool = false,
    window_always_run: bool = false,
    window_minimized: bool = false,
    window_maximized: bool = false,
    window_unfocused: bool = false,
    window_topmost: bool = false,
    window_highdpi: bool = false,
    window_mouse_passthrough: bool = false,
    borderless_windowed_mode: bool = false,
    interlaced_hint: bool = false,
    __reserved2: bool = false,
    __reserved3: bool = false,
    __reserved4: bool = false,
    __reserved5: bool = false,
    __reserved6: bool = false,
    __reserved7: bool = false,
    __reserved8: bool = false,
    __reserved9: bool = false,
    __reserved10: bool = false,
    __reserved11: bool = false,
    __reserved12: bool = false,
    __reserved13: bool = false,
    __reserved14: bool = false,
    __reserved15: bool = false,
    __reserved16: bool = false,
};

pub const TraceLogLevel = enum(c_int) {
    all = 0,
    trace = 1,
    debug = 2,
    info = 3,
    warning = 4,
    err = 5,
    fatal = 6,
    none = 7,
};

pub const KeyboardKey = enum(c_int) {
    null = 0,
    apostrophe = 39,
    comma = 44,
    minus = 45,
    period = 46,
    slash = 47,
    zero = 48,
    one = 49,
    two = 50,
    three = 51,
    four = 52,
    five = 53,
    six = 54,
    seven = 55,
    eight = 56,
    nine = 57,
    semicolon = 59,
    equal = 61,
    a = 65,
    b = 66,
    c = 67,
    d = 68,
    e = 69,
    f = 70,
    g = 71,
    h = 72,
    i = 73,
    j = 74,
    k = 75,
    l = 76,
    m = 77,
    n = 78,
    o = 79,
    p = 80,
    q = 81,
    r = 82,
    s = 83,
    t = 84,
    u = 85,
    v = 86,
    w = 87,
    x = 88,
    y = 89,
    z = 90,
    space = 32,
    escape = 256,
    enter = 257,
    tab = 258,
    backspace = 259,
    insert = 260,
    delete = 261,
    right = 262,
    left = 263,
    down = 264,
    up = 265,
    page_up = 266,
    page_down = 267,
    home = 268,
    end = 269,
    caps_lock = 280,
    scroll_lock = 281,
    num_lock = 282,
    print_screen = 283,
    pause = 284,
    f1 = 290,
    f2 = 291,
    f3 = 292,
    f4 = 293,
    f5 = 294,
    f6 = 295,
    f7 = 296,
    f8 = 297,
    f9 = 298,
    f10 = 299,
    f11 = 300,
    f12 = 301,
    left_shift = 340,
    left_control = 341,
    left_alt = 342,
    left_super = 343,
    right_shift = 344,
    right_control = 345,
    right_alt = 346,
    right_super = 347,
    kb_menu = 348,
    left_bracket = 91,
    backslash = 92,
    right_bracket = 93,
    grave = 96,
    kp_0 = 320,
    kp_1 = 321,
    kp_2 = 322,
    kp_3 = 323,
    kp_4 = 324,
    kp_5 = 325,
    kp_6 = 326,
    kp_7 = 327,
    kp_8 = 328,
    kp_9 = 329,
    kp_decimal = 330,
    kp_divide = 331,
    kp_multiply = 332,
    kp_subtract = 333,
    kp_add = 334,
    kp_enter = 335,
    kp_equal = 336,
    back = 4,
    //menu = 82,
    volume_up = 24,
    volume_down = 25,
};

pub const MouseButton = enum(c_int) {
    left = 0,
    right = 1,
    middle = 2,
    side = 3,
    extra = 4,
    forward = 5,
    back = 6,
};

pub const MouseCursor = enum(c_int) {
    default = 0,
    arrow = 1,
    ibeam = 2,
    crosshair = 3,
    pointing_hand = 4,
    resize_ew = 5,
    resize_ns = 6,
    resize_nwse = 7,
    resize_nesw = 8,
    resize_all = 9,
    not_allowed = 10,
};

pub const GamepadButton = enum(c_int) {
    unknown = 0,
    left_face_up = 1,
    left_face_right = 2,
    left_face_down = 3,
    left_face_left = 4,
    right_face_up = 5,
    right_face_right = 6,
    right_face_down = 7,
    right_face_left = 8,
    left_trigger_1 = 9,
    left_trigger_2 = 10,
    right_trigger_1 = 11,
    right_trigger_2 = 12,
    middle_left = 13,
    middle = 14,
    middle_right = 15,
    left_thumb = 16,
    right_thumb = 17,
};

pub const GamepadAxis = enum(c_int) {
    left_x = 0,
    left_y = 1,
    right_x = 2,
    right_y = 3,
    left_trigger = 4,
    right_trigger = 5,
};

pub const MaterialMapIndex = enum(c_int) {
    albedo = 0,
    metalness = 1,
    normal = 2,
    roughness = 3,
    occlusion = 4,
    emission = 5,
    height = 6,
    cubemap = 7,
    irradiance = 8,
    prefilter = 9,
    brdf = 10,
};

pub const ShaderLocationIndex = enum(c_int) { vertex_position = 0, vertex_texcoord01 = 1, vertex_texcoord02 = 2, vertex_normal = 3, vertex_tangent = 4, vertex_color = 5, matrix_mvp = 6, matrix_view = 7, matrix_projection = 8, matrix_model = 9, matrix_normal = 10, vector_view = 11, color_diffuse = 12, color_specular = 13, color_ambient = 14, map_albedo = 15, map_metalness = 16, map_normal = 17, map_roughness = 18, map_occlusion = 19, map_emission = 20, map_height = 21, map_cubemap = 22, map_irradiance = 23, map_prefilter = 24, map_brdf = 25, vertex_boneids = 26, vertex_boneweights = 27, bone_matrices = 28, shader_loc_vertex_instance_tx };

pub const ShaderUniformDataType = enum(c_int) {
    float = 0,
    vec2 = 1,
    vec3 = 2,
    vec4 = 3,
    int = 4,
    ivec2 = 5,
    ivec3 = 6,
    ivec4 = 7,
    sampler2d = 8,
};

pub const ShaderAttribute = enum(c_int) {
    float = 0,
    vec2 = 1,
    vec3 = 2,
    vec4 = 3,
};

pub const PixelFormat = enum(c_int) {
    uncompressed_grayscale = 1,
    uncompressed_gray_alpha = 2,
    uncompressed_r5g6b5 = 3,
    uncompressed_r8g8b8 = 4,
    uncompressed_r5g5b5a1 = 5,
    uncompressed_r4g4b4a4 = 6,
    uncompressed_r8g8b8a8 = 7,
    uncompressed_r32 = 8,
    uncompressed_r32g32b32 = 9,
    uncompressed_r32g32b32a32 = 10,
    uncompressed_r16 = 11,
    uncompressed_r16g16b16 = 12,
    uncompressed_r16g16b16a16 = 13,
    compressed_dxt1_rgb = 14,
    compressed_dxt1_rgba = 15,
    compressed_dxt3_rgba = 16,
    compressed_dxt5_rgba = 17,
    compressed_etc1_rgb = 18,
    compressed_etc2_rgb = 19,
    compressed_etc2_eac_rgba = 20,
    compressed_pvrt_rgb = 21,
    compressed_pvrt_rgba = 22,
    compressed_astc_4x4_rgba = 23,
    compressed_astc_8x8_rgba = 24,
};

pub const TextureFilter = enum(c_int) {
    point = 0,
    bilinear = 1,
    trilinear = 2,
    anisotropic_4x = 3,
    anisotropic_8x = 4,
    anisotropic_16x = 5,
};

pub const TextureWrap = enum(c_int) {
    repeat = 0,
    clamp = 1,
    mirror_repeat = 2,
    mirror_clamp = 3,
};

pub const CubemapLayout = enum(c_int) {
    auto_detect = 0,
    line_vertical = 1,
    line_horizontal = 2,
    cross_three_by_four = 3,
    cross_four_by_three = 4,
};

pub const FontType = enum(c_int) {
    default = 0,
    bitmap = 1,
    sdf = 2,
};

pub const BlendMode = enum(c_int) {
    alpha = 0,
    additive = 1,
    multiplied = 2,
    add_colors = 3,
    subtract_colors = 4,
    alpha_premultiply = 5,
    custom = 6,
    custom_separate = 7,
};

pub const Gesture = enum(c_int) {
    none = 0,
    tap = 1,
    doubletap = 2,
    hold = 4,
    drag = 8,
    swipe_right = 16,
    swipe_left = 32,
    swipe_up = 64,
    swipe_down = 128,
    pinch_in = 256,
    pinch_out = 512,
};

pub const CameraMode = enum(c_int) {
    custom = 0,
    free = 1,
    orbital = 2,
    first_person = 3,
    third_person = 4,
};

pub const CameraProjection = enum(c_int) {
    perspective = 0,
    orthographic = 1,
};

pub const NPatchType = enum(c_int) {
    nine_patch = 0,
    three_patch_vertical = 1,
    three_patch_horizontal = 2,
};

// pub const TraceLogCallback = ?fn (c_int, [*c]const u8, [*c]struct___va_list_tag) callconv(.C) void;
pub const LoadFileDataCallback = *const fn ([*c]const u8, [*c]c_uint) callconv(.C) [*c]u8;
pub const SaveFileDataCallback = *const fn ([*c]const u8, ?*anyopaque, c_uint) callconv(.C) bool;
pub const LoadFileTextCallback = *const fn ([*c]const u8) callconv(.C) [*c]u8;
pub const SaveFileTextCallback = *const fn ([*c]const u8, [*c]u8) callconv(.C) bool;
pub const AudioCallback = ?*const fn (?*anyopaque, c_uint) callconv(.C) void;

pub const RAYLIB_VERSION_MAJOR = @as(i32, 5);
pub const RAYLIB_VERSION_MINOR = @as(i32, 5);
pub const RAYLIB_VERSION_PATCH = @as(i32, 0);
pub const RAYLIB_VERSION = "5.6-dev";

pub const MAX_TOUCH_POINTS = 10;
pub const MAX_MATERIAL_MAPS = 12;
pub const MAX_SHADER_LOCATIONS = 32;

pub const MATERIAL_MAP_DIFFUSE = MaterialMapIndex.albedo;
pub const MATERIAL_MAP_SPECULAR = MaterialMapIndex.metalness;
pub const SHADER_LOC_MAP_DIFFUSE = ShaderLocationIndex.map_albedo;
pub const SHADER_LOC_MAP_SPECULAR = ShaderLocationIndex.map_metalness;

/// Set icon for window (multiple images, RGBA 32bit, only PLATFORM_DESKTOP)
pub fn setWindowIcons(images: []Image) void {
    cdef.SetWindowIcons(@as([*c]Image, @ptrCast(images)), @as(c_int, @intCast(images.len)));
}

/// Load shader from files and bind default locations
pub fn loadShader(vsFileName: ?[:0]const u8, fsFileName: ?[:0]const u8) RaylibError!Shader {
    var vsFileNameFinal = @as([*c]const u8, 0);
    var fsFileNameFinal = @as([*c]const u8, 0);
    if (vsFileName) |vsFileNameSure| {
        vsFileNameFinal = @as([*c]const u8, @ptrCast(vsFileNameSure));
    }
    if (fsFileName) |fsFileNameSure| {
        fsFileNameFinal = @as([*c]const u8, @ptrCast(fsFileNameSure));
    }
    const shader = cdef.LoadShader(vsFileNameFinal, fsFileNameFinal);
    const isValid = cdef.IsShaderValid(shader);
    return if (isValid) shader else RaylibError.LoadShader;
}

/// Load shader from code strings and bind default locations
pub fn loadShaderFromMemory(vsCode: ?[:0]const u8, fsCode: ?[:0]const u8) RaylibError!Shader {
    var vsCodeFinal = @as([*c]const u8, 0);
    var fsCodeFinal = @as([*c]const u8, 0);
    if (vsCode) |vsCodeSure| {
        vsCodeFinal = @as([*c]const u8, @ptrCast(vsCodeSure));
    }
    if (fsCode) |fsCodeSure| {
        fsCodeFinal = @as([*c]const u8, @ptrCast(fsCodeSure));
    }
    const shader = cdef.LoadShaderFromMemory(vsCodeFinal, fsCodeFinal);
    const isValid = cdef.IsShaderValid(shader);
    return if (isValid) shader else RaylibError.LoadShader;
}

pub fn loadRandomSequence(count: u32, min: i32, max: i32) []i32 {
    var res: []i32 = undefined;

    const ptr = cdef.LoadRandomSequence(@as(c_uint, @intCast(count)), @as(c_int, @intCast(min)), @as(c_int, @intCast(max)));

    res.ptr = @as([*]i32, @ptrCast(ptr));
    res.len = @as(usize, @intCast(count));
    return res;
}

/// Save data to file from byte array (write), returns true on success
pub fn saveFileData(fileName: [:0]const u8, data: []u8) bool {
    return cdef.SaveFileData(@as([*c]const u8, @ptrCast(fileName)), @as(*anyopaque, @ptrCast(data.ptr)), @as(c_int, @intCast(data.len)));
}

/// Export data to code (.h), returns true on success
pub fn exportDataAsCode(data: []const u8, fileName: [:0]const u8) bool {
    return cdef.ExportDataAsCode(@as([*c]const u8, @ptrCast(data)), @as(c_int, @intCast(data.len)), @as([*c]const u8, @ptrCast(fileName)));
}

pub fn computeCRC32(data: []u8) u32 {
    return cdef.ComputeCRC32(@as([*c]u8, @ptrCast(data)), @as(c_int, @intCast(data.len)));
}

pub fn computeMD5(data: []u8) [4]u32 {
    const res: [*]c_uint = cdef.ComputeMD5(@as([*c]u8, @ptrCast(data)), @as(c_int, @intCast(data.len)));
    return res[0..4].*;
}

pub fn computeSHA1(data: []u8) [5]u32 {
    const res: [*]c_uint = cdef.ComputeSHA1(@as([*c]u8, @ptrCast(data)), @as(c_int, @intCast(data.len)));
    return res[0..5].*;
}

/// Load image from file into CPU memory (RAM)
pub fn loadImage(fileName: [:0]const u8) RaylibError!Image {
    const image = cdef.LoadImage(@as([*c]const u8, @ptrCast(fileName)));
    const isValid = cdef.IsImageValid(image);
    return if (isValid) image else RaylibError.LoadImage;
}

/// Load image from RAW file data
pub fn loadImageRaw(fileName: [:0]const u8, width: i32, height: i32, format: PixelFormat, headerSize: i32) RaylibError!Image {
    const image = cdef.LoadImageRaw(@as([*c]const u8, @ptrCast(fileName)), @as(c_int, width), @as(c_int, height), format, @as(c_int, headerSize));
    const isValid = cdef.IsImageValid(image);
    return if (isValid) image else RaylibError.LoadImage;
}

/// Load image sequence from file (frames appended to image.data)
pub fn loadImageAnim(fileName: [:0]const u8, frames: *i32) RaylibError!Image {
    const image = cdef.LoadImageAnim(@as([*c]const u8, @ptrCast(fileName)), @as([*c]c_int, @ptrCast(frames)));
    const isValid = cdef.IsImageValid(image);
    return if (isValid) image else RaylibError.LoadImage;
}

/// Load image from GPU texture data
pub fn loadImageFromTexture(texture: Texture2D) RaylibError!Image {
    const image = cdef.LoadImageFromTexture(texture);
    const isValid = cdef.IsImageValid(image);
    return if (isValid) image else RaylibError.LoadImage;
}

/// Load image from screen buffer and (screenshot)
pub fn loadImageFromScreen() RaylibError!Image {
    const image = cdef.LoadImageFromScreen();
    const isValid = cdef.IsImageValid(image);
    return if (isValid) image else RaylibError.LoadImage;
}

pub fn loadImageAnimFromMemory(fileType: [:0]const u8, fileData: []const u8, frames: *i32) RaylibError!Image {
    const image = cdef.LoadImageAnimFromMemory(@as([*c]const u8, @ptrCast(fileType)), @as([*c]const u8, @ptrCast(fileData)), @as(c_int, @intCast(fileData.len)), @as([*c]c_int, @ptrCast(frames)));
    const isValid = cdef.IsImageValid(image);
    return if (isValid) image else RaylibError.LoadImage;
}

/// Load image from memory buffer, fileType refers to extension: i.e. '.png'
pub fn loadImageFromMemory(fileType: [:0]const u8, fileData: []const u8) RaylibError!Image {
    const image = cdef.LoadImageFromMemory(@as([*c]const u8, @ptrCast(fileType)), @as([*c]const u8, @ptrCast(fileData)), @as(c_int, @intCast(fileData.len)));
    const isValid = cdef.IsImageValid(image);
    return if (isValid) image else RaylibError.LoadImage;
}

/// Create an image from text (default font)
pub fn imageText(text: [:0]const u8, fontSize: i32, color: Color) RaylibError!Image {
    // TODO: ImageText requires SUPPORT_MODULE_RTEXT. Error out if not loaded.
    const image = cdef.ImageText(@as([*c]const u8, @ptrCast(text)), @as(c_int, fontSize), color);
    const isValid = cdef.IsImageValid(image);
    return if (isValid) image else RaylibError.LoadImage;
}

/// Create an image from text (custom sprite font)
pub fn imageTextEx(font: Font, text: [:0]const u8, fontSize: f32, spacing: f32, tint: Color) RaylibError!Image {
    // TODO: ImageTextEx requires SUPPORT_MODULE_RTEXT. Error out if not loaded.
    const image = cdef.ImageTextEx(font, @as([*c]const u8, @ptrCast(text)), fontSize, spacing, tint);
    const isValid = cdef.IsImageValid(image);
    return if (isValid) image else RaylibError.LoadImage;
}

/// Load color data from image as a Color array (RGBA - 32bit)
pub fn loadImageColors(image: Image) RaylibError![]Color {
    var res: []Color = undefined;

    const ptr = cdef.LoadImageColors(image);
    if (ptr == 0) return RaylibError.LoadImageColors;

    res.ptr = @as([*]Color, @ptrCast(ptr));
    res.len = @as(usize, @intCast(image.width * image.height));
    return res;
}

/// Load texture from file into GPU memory (VRAM)
pub fn loadTexture(fileName: [:0]const u8) RaylibError!Texture2D {
    const texture = cdef.LoadTexture(@as([*c]const u8, @ptrCast(fileName)));
    const isValid = cdef.IsTextureValid(texture);
    return if (isValid) texture else RaylibError.LoadTexture;
}

/// Load texture from image data
pub fn loadTextureFromImage(image: Image) RaylibError!Texture2D {
    const texture = cdef.LoadTextureFromImage(image);
    const isValid = cdef.IsTextureValid(texture);
    return if (isValid) texture else RaylibError.LoadTexture;
}

/// Load cubemap from image, multiple image cubemap layouts supported
pub fn loadTextureCubemap(image: Image, layout: CubemapLayout) RaylibError!TextureCubemap {
    const texture = cdef.LoadTextureCubemap(image, layout);
    const isValid = cdef.IsTextureValid(texture);
    return if (isValid) texture else RaylibError.LoadTexture;
}

/// Load texture for rendering (framebuffer)
pub fn loadRenderTexture(width: i32, height: i32) RaylibError!RenderTexture2D {
    const render_texture = cdef.LoadRenderTexture(@as(c_int, width), @as(c_int, height));
    const isValid = cdef.IsRenderTextureValid(render_texture);
    return if (isValid) render_texture else RaylibError.LoadRenderTexture;
}

pub fn colorToInt(color: Color) i32 {
    return if (@inComptime())
        (@as(i32, color.r) << 24) | (@as(i32, color.g) << 16) | (@as(i32, color.b) << 8) | @as(i32, color.a)
    else
        @as(i32, cdef.ColorToInt(color));
}

/// Get the default Font
pub fn getFontDefault() RaylibError!Font {
    // TODO: GetFontDefault requires SUPPORT_DEFAULT_FONT. Error out if unset.
    const font = cdef.GetFontDefault();
    const isValid = cdef.IsFontValid(font);
    return if (isValid) font else RaylibError.LoadFont;
}

/// Load font from file into GPU memory (VRAM)
pub fn loadFont(fileName: [:0]const u8) RaylibError!Font {
    const font = cdef.LoadFont(@as([*c]const u8, @ptrCast(fileName)));
    const isValid = cdef.IsFontValid(font);
    return if (isValid) font else RaylibError.LoadFont;
}

/// Load font from file with extended parameters, use null for fontChars to load the default character set
pub fn loadFontEx(fileName: [:0]const u8, fontSize: i32, fontChars: ?[]i32) RaylibError!Font {
    var fontCharsFinal = @as([*c]c_int, 0);
    var fontCharsLen: c_int = @as(c_int, 0);
    if (fontChars) |fontCharsSure| {
        fontCharsFinal = @as([*c]c_int, @ptrCast(fontCharsSure));
        fontCharsLen = @as(i32, @intCast(fontCharsSure.len));
    }
    const font = cdef.LoadFontEx(@as([*c]const u8, @ptrCast(fileName)), @as(c_int, fontSize), fontCharsFinal, fontCharsLen);
    const isValid = cdef.IsFontValid(font);
    return if (isValid) font else RaylibError.LoadFont;
}

/// Load font from memory buffer, fileType refers to extension: i.e. '.ttf'
pub fn loadFontFromMemory(fileType: [:0]const u8, fileData: ?[]const u8, fontSize: i32, fontChars: ?[]i32) RaylibError!Font {
    var fileDataFinal = @as([*c]const u8, 0);
    var fileDataLen: i32 = 0;
    if (fileData) |fileDataSure| {
        fileDataFinal = @as([*c]const u8, @ptrCast(fileDataSure));
        fileDataLen = @as(i32, @intCast(fileDataSure.len));
    }
    const codepointCount: c_int = if (fontChars) |fontCharsSure| @intCast(fontCharsSure.len) else 0;
    const font = cdef.LoadFontFromMemory(@as([*c]const u8, @ptrCast(fileType)), @as([*c]const u8, @ptrCast(fileDataFinal)), @as(c_int, @intCast(fileDataLen)), @as(c_int, fontSize), @as([*c]c_int, @ptrCast(fontChars)), codepointCount);
    const isValid = cdef.IsFontValid(font);
    return if (isValid) font else RaylibError.LoadFont;
}

/// Load font from Image (XNA style)
pub fn loadFontFromImage(image: Image, key: Color, firstChar: i32) RaylibError!Font {
    const font = cdef.LoadFontFromImage(image, key, @as(c_int, firstChar));
    const isValid = cdef.IsFontValid(font);
    return if (isValid) font else RaylibError.LoadFont;
}

/// Load font data for further use
pub fn loadFontData(fileData: []const u8, fontSize: i32, codePoints: ?[]i32, ty: FontType) RaylibError![]GlyphInfo {
    var res: []GlyphInfo = undefined;

    var codePointsFinal = @as([*c]i32, 0);
    var codePointsLen: i32 = 0;
    if (codePoints) |codePointsSure| {
        codePointsFinal = @as([*c]i32, @ptrCast(codePointsSure));
        codePointsLen = @as(i32, @intCast(codePointsSure.len));
    } else {
        codePointsLen = 95;
    }

    const ptr = cdef.LoadFontData(@as([*c]const u8, @ptrCast(fileData)), @as(c_int, @intCast(fileData.len)), @as(c_int, fontSize), codePointsFinal, @as(c_int, @intCast(codePointsLen)), ty);
    if (ptr == 0) return RaylibError.LoadFontData;

    res.ptr = @as([*]GlyphInfo, @ptrCast(ptr));
    res.len = @as(usize, @intCast(codePointsLen));
    return res;
}

/// Text formatting with variables (sprintf() style)
pub fn textFormat(text: [:0]const u8, args: anytype) [:0]const u8 {
    comptime {
        const info = @typeInfo(@TypeOf(args));
        switch (info) {
            .@"struct" => {
                if (!info.@"struct".is_tuple)
                    @compileError("Args should be in a tuple (call this function like textFormat(.{arg1, arg2, ...});)!");
            },
            else => {
                @compileError("Args should be in a tuple (call this function like textFormat(.{arg1, arg2, ...});)!");
            },
        }
    }

    return std.mem.span(@call(.auto, cdef.TextFormat, .{@as([*c]const u8, @ptrCast(text))} ++ args));
}

/// Show trace log messages (LOG_DEBUG, LOG_INFO, LOG_WARNING, LOG_ERROR...)
pub fn traceLog(logLevel: TraceLogLevel, text: [:0]const u8, args: anytype) void {
    comptime {
        const info = @typeInfo(@TypeOf(args));
        switch (info) {
            .@"struct" => {
                if (!info.@"struct".is_tuple)
                    @compileError("Args should be in a tuple (call this function like traceLog(.{arg1, arg2, ...});)!");
            },
            else => {
                @compileError("Args should be in a tuple (call this function like traceLog(.{arg1, arg2, ...});)!");
            },
        }
    }

    @call(.auto, cdef.TraceLog, .{ logLevel, @as([*c]const u8, @ptrCast(text)) } ++ args);
}

/// Draw multiple mesh instances with material and different transforms
pub fn drawMeshInstanced(mesh: Mesh, material: Material, transforms: []const Matrix) void {
    cdef.DrawMeshInstanced(mesh, material, @as([*c]const Matrix, @ptrCast(transforms)), @as(c_int, @intCast(transforms.len)));
}

/// Load default material (Supports: DIFFUSE, SPECULAR, NORMAL maps)
pub fn loadMaterialDefault() RaylibError!Material {
    const material = cdef.LoadMaterialDefault();
    const isValid = cdef.IsMaterialValid(material);
    return if (isValid) material else RaylibError.LoadMaterial;
}

/// Load materials from model file
pub fn loadMaterials(fileName: [:0]const u8) RaylibError![]Material {
    var materialCount: i32 = 0;
    var res: []Material = undefined;

    const ptr = cdef.LoadMaterials(@as([*c]const u8, @ptrCast(fileName)), @as([*c]c_int, @ptrCast(&materialCount)));
    if (ptr == 0) return RaylibError.LoadMaterials;

    res.ptr = @as([*]Material, @ptrCast(ptr));
    res.len = @as(usize, @intCast(materialCount));

    for (res) |r| {
        if (!cdef.IsMaterialValid(r))
            return RaylibError.LoadMaterial;
    }

    return res;
}

/// Load model from files (meshes and materials)
pub fn loadModel(fileName: [:0]const u8) RaylibError!Model {
    const model = cdef.LoadModel(@as([*c]const u8, @ptrCast(fileName)));
    const isValid = cdef.IsModelValid(model);
    return if (isValid) model else RaylibError.LoadModel;
}

/// Load model from generated mesh (default material)
pub fn loadModelFromMesh(mesh: Mesh) RaylibError!Model {
    const model = cdef.LoadModelFromMesh(mesh);
    const isValid = cdef.IsModelValid(model);
    return if (isValid) model else RaylibError.LoadModel;
}

/// Unload animation data
pub fn unloadModelAnimations(animations: []ModelAnimation) void {
    cdef.UnloadModelAnimations(@as([*c]ModelAnimation, @ptrCast(animations)), @as(c_int, @intCast(animations.len)));
}

/// Load sound from file
pub fn loadSound(fileName: [:0]const u8) RaylibError!Sound {
    const sound = cdef.LoadSound(@as([*c]const u8, @ptrCast(fileName)));
    const isValid = cdef.IsSoundValid(sound);
    return if (isValid) sound else RaylibError.LoadSound;
}

/// Load wave data from file
pub fn loadWave(fileName: [:0]const u8) RaylibError!Wave {
    const wave = cdef.LoadWave(@as([*c]const u8, @ptrCast(fileName)));
    const isValid = cdef.IsWaveValid(wave);
    return if (isValid) wave else RaylibError.LoadWave;
}

/// Load wave from memory buffer, fileType refers to extension: i.e. '.wav'
pub fn loadWaveFromMemory(fileType: [:0]const u8, fileData: []const u8) RaylibError!Wave {
    const wave = cdef.LoadWaveFromMemory(@as([*c]const u8, @ptrCast(fileType)), @as([*c]const u8, @ptrCast(fileData)), @as(c_int, @intCast(fileData.len)));
    const isValid = cdef.IsWaveValid(wave);
    return if (isValid) wave else RaylibError.LoadWave;
}

/// Load samples data from wave as a 32bit float data array
pub fn loadWaveSamples(wave: Wave) []f32 {
    var res: []f32 = undefined;
    res.ptr = @as([*]f32, @ptrCast(cdef.LoadWaveSamples(wave)));
    res.len = @as(usize, @intCast(wave.frameCount * wave.channels));
    return res;
}

/// Load music stream from file
pub fn loadMusicStream(fileName: [:0]const u8) RaylibError!Music {
    const music = cdef.LoadMusicStream(@as([*c]const u8, @ptrCast(fileName)));
    const isValid = cdef.IsMusicValid(music);
    return if (isValid) music else RaylibError.LoadMusic;
}

/// Load music stream from data
pub fn loadMusicStreamFromMemory(fileType: [:0]const u8, data: []const u8) RaylibError!Music {
    const music = cdef.LoadMusicStreamFromMemory(@as([*c]const u8, @ptrCast(fileType)), @as([*c]const u8, @ptrCast(data)), @as(c_int, @intCast(data.len)));
    const isValid = cdef.IsMusicValid(music);
    return if (isValid) music else RaylibError.LoadMusic;
}

/// Load audio stream (to stream raw audio pcm data)
pub fn loadAudioStream(sampleRate: u32, sampleSize: u32, channels: u32) RaylibError!AudioStream {
    const audio_stream = cdef.LoadAudioStream(@as(c_uint, sampleRate), @as(c_uint, sampleSize), @as(c_uint, channels));
    const isValid = cdef.IsAudioStreamValid(audio_stream);
    return if (isValid) audio_stream else RaylibError.LoadAudioStream;
}

/// Draw lines sequence (using gl lines)
pub fn drawLineStrip(points: []const Vector2, color: Color) void {
    cdef.DrawLineStrip(@as([*c]const Vector2, @ptrCast(points)), @as(c_int, @intCast(points.len)), color);
}

/// Draw a triangle fan defined by points (first vertex is the center)
pub fn drawTriangleFan(points: []const Vector2, color: Color) void {
    cdef.DrawTriangleFan(@as([*c]const Vector2, @ptrCast(points)), @as(c_int, @intCast(points.len)), color);
}

/// Draw a triangle strip defined by points
pub fn drawTriangleStrip(points: []const Vector2, color: Color) void {
    cdef.DrawTriangleStrip(@as([*c]const Vector2, @ptrCast(points)), @as(c_int, @intCast(points.len)), color);
}

/// Draw spline: Linear, minimum 2 points
pub fn drawSplineLinear(points: []const Vector2, thick: f32, color: Color) void {
    cdef.DrawSplineLinear(@as([*c]const Vector2, @ptrCast(points)), @as(c_int, @intCast(points.len)), thick, color);
}

/// Draw spline: B-Spline, minimum 4 points
pub fn drawSplineBasis(points: []const Vector2, thick: f32, color: Color) void {
    cdef.DrawSplineBasis(@as([*c]const Vector2, @ptrCast(points)), @as(c_int, @intCast(points.len)), thick, color);
}

/// Draw spline: Catmull-Rom, minimum 4 points
pub fn drawSplineCatmullRom(points: []const Vector2, thick: f32, color: Color) void {
    cdef.DrawSplineCatmullRom(@as([*c]const Vector2, @ptrCast(points)), @as(c_int, @intCast(points.len)), thick, color);
}

/// Draw spline: Quadratic Bezier, minimum 3 points (1 control point): [p1, c2, p3, c4...]
pub fn drawSplineBezierQuadratic(points: []const Vector2, thick: f32, color: Color) void {
    cdef.DrawSplineBezierQuadratic(@as([*c]const Vector2, @ptrCast(points)), @as(c_int, @intCast(points.len)), thick, color);
}

/// Draw spline: Cubic Bezier, minimum 4 points (2 control points): [p1, c2, c3, p4, c5, c6...]
pub fn drawSplineBezierCubic(points: []const Vector2, thick: f32, color: Color) void {
    cdef.DrawSplineBezierCubic(@as([*c]const Vector2, @ptrCast(points)), @as(c_int, @intCast(points.len)), thick, color);
}

/// Check if point is within a polygon described by array of vertices
pub fn checkCollisionPointPoly(point: Vector2, points: []const Vector2) bool {
    return cdef.CheckCollisionPointPoly(point, @as([*c]const Vector2, @ptrCast(points)), @as(c_int, @intCast(points.len)));
}

pub fn imageKernelConvolution(image: *Image, kernel: []const f32) void {
    cdef.ImageKernelConvolution(@as([*c]Image, @ptrCast(image)), @as([*c]const f32, @ptrCast(kernel)), @as(c_int, @intCast(kernel.len)));
}

/// Generate image font atlas using chars info
pub fn genImageFontAtlas(glyphs: []const GlyphInfo, fontSize: i32, padding: i32, packMethod: i32) RaylibError!struct{
    Image, []Rectangle } {
    var res: []Rectangle = undefined;
    var recs: [*c]Rectangle = 0;
    const image = cdef.GenImageFontAtlas(@as([*c]const GlyphInfo, @ptrCast(glyphs)), @as([*c][*c]Rectangle, @ptrCast(&recs)), @as(c_int, @intCast(glyphs.len)), @as(c_int, fontSize), @as(c_int, padding), @as(c_int, packMethod));
    const isValid = cdef.IsImageValid(image);

    if (!isValid) return RaylibError.GenImageFontAtlas;

    res.ptr = @as([*]Rectangle, @ptrCast(@alignCast(recs)));
    res.len = @as(usize, @intCast(glyphs.len));

    return .{ image, res };
}

/// Unload font chars info data (RAM)
pub fn unloadFontData(chars: []GlyphInfo) void {
    cdef.UnloadFontData(@as([*c]GlyphInfo, @ptrCast(chars)), @as(c_int, @intCast(chars.len)));
}

/// Draw multiple character (codepoint)
pub fn drawTextCodepoints(font: Font, codepoints: []const c_int, position: Vector2, fontSize: f32, spacing: f32, tint: Color) void {
    cdef.DrawTextCodepoints(font, @as([*c]const c_int, @ptrCast(codepoints)), @as(c_int, @intCast(codepoints.len)), position, fontSize, spacing, tint);
}

/// Load UTF-8 text encoded from codepoints array
pub fn loadUTF8(codepoints: []const c_int) [:0]u8 {
    return std.mem.span(cdef.LoadUTF8(@as([*c]const c_int, @ptrCast(codepoints)), @as(c_int, @intCast(codepoints.len))));
}

/// Join text strings with delimiter
pub fn textJoin(textList: [][:0]u8, delimiter: [:0]const u8) [:0]const u8 {
    return std.mem.span(cdef.TextJoin(@as([*c][*c]u8, @ptrCast(textList)), @as(c_int, @intCast(textList.len)), @as([*c]const u8, @ptrCast(delimiter))));
}

/// Draw a triangle strip defined by points
pub fn drawTriangleStrip3D(points: []const Vector3, color: Color) void {
    cdef.DrawTriangleStrip3D(@as([*c]const Vector3, @ptrCast(points)), @as(c_int, @intCast(points.len)), color);
}

/// Internal memory allocator
fn alloc(_: *anyopaque, len: usize, _: std.mem.Alignment, _: usize) ?[*]u8 {
    std.debug.assert(len > 0);
    return @ptrCast(cdef.MemAlloc(@intCast(len)));
}

fn resize(_: *anyopaque, buf: []u8, _: std.mem.Alignment, new_len: usize, _: usize) bool {
    return (new_len <= buf.len);
}

/// Internal memory free
fn free(_: *anyopaque, buf: []u8, _: std.mem.Alignment, _: usize) void {
    cdef.MemFree(buf.ptr);
}

fn remap(_: *anyopaque, buf: []u8, _: std.mem.Alignment, new_len: usize, _: usize) ?[*]u8 {
    if (new_len <= buf.len) {
        return buf.ptr;
    } else {
        return null;
    }
}

const mem_vtable = std.mem.Allocator.VTable{
    .alloc = alloc,
    .resize = resize,
    .free = free,
    .remap = remap,
};

pub const mem = std.mem.Allocator{
    .ptr = undefined,
    .vtable = &mem_vtable,
};